Plan for Public Intelligenceaka P4PI, or ‘papi’

A democratic reformation of American tech, November 2026.

Dear friends,

Our entry into publishing came with a reverence for books, and, more so, a will to explore the systems that manage knowledge in the world.

This brought us, early on, to the idea of an “ISBN 2.0,” a way to own one’s likeness in the twenty-first century, as the platitude that ideas may take on a life of their own becomes a literal computational reality. After all, “the humanism of the past five hundred years,” we wrote, "is dead."

Pursuing it has taken us far afield: through the aging legal architectures of Hollywood studios, inside the research labs of the Ethereum community, and into the design of new data structures for university libraries.

From entertainment, to computing, to academia, we have come to have an unusually close-up view of the agreements that AI labs have sought with institutions for access to their data; of radical advances in cryptography; and of the emerging deficiencies of IP law and of book publishing, which—despite its malfunctions—remains the principal means of producing meaningful ideas in public.

This opened onto a much larger question:

the hidden possibility, and obvious necessity, of a different technical and political basis for intelligence—the sharing of intelligence and knowledge generally, not simply of the synthetic kind.

The irony is that computation can do far more to improve people’s lives than Silicon Valley’s commercial architecture presently permits; and despite the wave of AI thinkpieces, no one has proposed a meaningful reinvention of the vital institutions that steward and make use of human thought.

Our Plan for Public Intelligence (aka P4PI, or, as we pronounce it, “papi”) outlines a new regime for data, public institutions, and open infrastructure alongside the technical basis for a computational separation of powers. Google built a private architecture over public information; this is a public architecture for private information.

The focus of what follows is narrower: a reinvention of the public university.

The crises of AI and education are global, and in fact, the same is observed from opposite ends: the crisis of people’s belief that they are able to lead the lives they want to lead—the feeling of knowing one is able to succeed and, at the same time, as if one cannot.

We believe our future will be remade inside these institutions, and by the generation now filling them, whose movements have already shaken governments from Kathmandu to Delhi, Nairobi to Belgrade and no doubt soon to the rest of Europe and beyond.


Sebastian Clark, August 31 2026

sebastian@isolarii.com

——

P4PI draws extensively on the thoughts of people with whom we have been in contact over the past decade: Jo Guldi, Wendy Chun, Adrián Villar Rojas, Yevgenia Belorusets, Philippe Parreno, Rana Dasgupta, Hans Ulrich Obrist, Bill Sherman; Vitalik Buterin and friends around the Ethereum Foundation and 0xPARC, MDAC, Armature Globale and YY Exchange; time spent with Forensic Architecture and the Santa Fe Institute; and David Graeber and Édouard Glissant, whose legacies we have done what we can to help steward. Whatever contribution this makes lies in how their extensive ideas—concerning property, networks, education, and civic action—fit together.

NextIntroduction

Introduction

In the 1960s, Silicon Valley grew out of Stanford University and the semiconductor firms that emerged from Bell Labs. Since then, its centre of gravity has shifted epoch over epoch, from a foundational focus on hardware, to the architectures of global networks, to software and internet platforms. It has now violently swung back to hardware and the massive, specialised clusters that underpin the development of artificial intelligence.

The objective of each such shift, however, has remained unchanged: to improve the capacity to collect, or appropriate, and make use of information, or rather, data.

Beneath their veneer of vitality, LLMs, and other generative architectures, remain sophisticated mechanisms for recompiling and repurposing data, dependent upon the information they can harvest for training and later access at inference.

As these models improve, it becomes increasingly clear that there is no ghost, just a shell.

This is not to deny their power, it is simply to say—and this may be obvious—that we are seeing the emergence of data as a factor of production in the strictest economic sense, alongside, and progressively encompassing, land, labour, and capital. More than this, it constitutes the vast attack surface vulnerable to misaligned artificial intelligence, and proves to be, as attempts to meaningfully synthesise it fail, irreducibly real.

What is peculiar is that, despite this, we still possess no civil mechanism to govern data’s acquisition or even a general market architecture for its exchange; only brokers for bulk licences and training agreements acting as its “bucket shops” of the 21st century. Its unchecked accumulation remains a land grab whose only historical equivalent is Enclosure. This is not only an ethical failure but a structural barrier to the technology's own development.

No moral appeal from the Vatican, monkey-wrenching of data centres, moratoria on their development, boycotting of Palantir, or violence against any tech executive, will solve this.

Neither will Bernie Sanders’ demand for the redistribution of corporate equity, nor even Sam Altman’s dubious offer to give it (to make the public shareholders of their own cognitive disenfranchisement: to profit, marginally, from the expropriation of one’s own intellect).

In other words, there seems no framework within America’s traditions of democratic capitalism or socialism equipped to answer the existential question of this century: under what conditions can intelligence become common infrastructure?

Achieving it requires a structural transformation as profound as the Reformation: a deep technical and social challenge to an elite whose political economy of information has lost its legitimacy and, it cannot deny, failed.

This would be a computational architecture of what should be called public intelligence.

The purpose of this memo is to introduce what we believe preliminary aspects of that architecture to be. We begin by outlining the structural enclosure of data (1–52): why the compounding liability of holding data paralysed civic institutions, and will soon paralyse models too.

We then advance five components of public intelligence:

a separation of powers for computation (53–61): Google built a private architecture over public information; we propose a public architecture for private information. This framework would separate who holds data from who computes over it, which the nascent field of programmable cryptography technically enables; we believe this to be the kernel of an end to surveillance capitalism, and of a social utility, and economic power, of data not available at present. P4PI governs the inputs, not the models nor what they produce.

markets in computational rights and data (62–84): to realise this new paradigm requires a market infrastructure, built upon what we term "computational warrants". The warrant changes the basic economic transaction from "you may have access to my data" to "you may use my information to do this particular thing that we have agreed"; this, in turn, requires an equitable framework for the validation and acquisition of data, that users can permission. P4PI governs the inputs and the terms, not the models and not what they produce.

a reinvention of the public university (86–117): The historical triumph of Silicon Valley, with Stanford University, was to fuse federal research, intellectual property, finance, and recruitment into an extraordinarily productive engine of technological development. The university is a complex information-sharing structure and the root of much of the specialised knowledge on which AI models train; there is a practical opportunity for its public form to be rebuilt as the anchor of this new architecture of computation and intelligence. As it stands, the public university is also a hinge for K–12 education, libraries, and research hospitals, and is where data sanctuaries can be established as a foundational right across civic life. That begins with children, whose neurological development must not be captured by proprietary product suites, whether Anthropic’s, Google’s, or McGraw Hill’s.

public patent pools and open silicon (118–130): “open-source” is a strategic decoy so long as the physical means of computation remain proprietary. Underpinned by the public university system, we must create patent pools that extend open-source principles down to the chips themselves, the foundation that the new data economy and new kinds of computation require. Mirroring the 1956 AT&T antitrust consent decree—which compelled the royalty-free licensing of Bell’s patents, the transistor among them, and birthed Silicon Valley—this legal mechanism will open the proprietary basis of chip development, optimising them for the separation of powers. There is no other way to prevent a monopoly on the knowledge industry.

cooperative infrastructure (131–157): Frontier development is encountering a hard floor dictated by the capital costs of silicon and the physical limits of energy; as we know, data-centre expansion is driving unprecedented grid deficits and price increases, costs that land unevenly, on rural America. Drawing on Roosevelt's Rural Electrification Administration and Adriano Olivetti's comunità concreta, computational capacity can instead be tethered to local, cooperative ownership, which, together with the public university, offers the possibility of a new consensus between rural and urban America. The same cooperatives, under a separation of powers, would hold sensor networks and public structures for encryption; otherwise Flock cameras are only a harbinger of the private surveillance networks that will flood America. As ever, American legitimacy depends upon widening access to the productive capacities of its age.

At the close, we ask what political orientations follow, in a world where configurations of hardware and software increasingly constitute political identities.

To be absolutely clear: P4PI is neither a plan for a national AI model, nor a government body to control intelligence; it is policy for democratically determining how human knowledge forms synthetic intelligence, rivalling what is at present an intelligence-industrial complex.

The revelation we are stumbling into is that intelligence is, and always has been, a public good—and that to care for it is the most human of activities. As intelligence, in turn, becomes literally infrastructural, it also becomes the most material of political questions.

Our politics is one of the affordability of, and equitable access to, housing, watts, tuition, and tokens—these will be settled together or not at all, a question of democratic devolution and progressive technology policy.

NextI (a). Appropriation

I (a). Appropriation

The digital economy is shifting from organising public information to aggressively extracting private, civic data to train artificial intelligence. Ultimately, this systemic appropriation forces a structural legal crisis regarding data ownership, distributed liability, and the boundaries of corporate personhood.

1

Since the advent of the internet, an extractive architecture has dominated the digital economy: collect data at scale, centralise it in server farms, compute over it with proprietary algorithms, and monetise the resulting asymmetries between what platforms see and what their users can.

2

It was by such means that Google, operating under the libertarian guise that “information wants to be free,” organised the world’s public information and generated trillions of dollars in value. Its promise was that, primarily through advertising, companies could granularly buy a behavioural change in a user.

3

Social media extended this architecture into systems for the continuous production and harvesting of behavioural information; concurrently, the rise of Software-as-a-Service (SaaS) moved entire organisations away from local computing and locked them into remotely operated software environments.

4

Beneath these layers, cloud platforms standardised the underlying computation, making it rentable by the hour; hand in hand, “software ate the world.”

5

If the previous race was to organise the world’s public information, the race for superintelligence is more immediately one for private and proprietary information; or what Sand Hill Road describes as “context.”

6

Context is information that remains, well, in context, of something: a chat history; the medical records that explain a diagnosis; in theory, the entire digitised arc of a person’s life; as well as the domain knowledge of specific industries and fields.

7

The promise of large language models is that, using context, they can increasingly situate knowledge within the particular circumstances of organisations and our lives; we could even say the hallmark of intelligence, in general, is the capacity to apply knowledge within specific contexts.

8

Historically, the durable form of this capacity has been civic institutions like hospitals, schools, courts and libraries. They are, in many respects, “domain-specific information systems” that administer the relation between a person and an area of life, by keeping, and acting upon, a record of it—that is, service, which, in turn, inspires people to ensure these institutions’ existence.

9

Their value and legitimacy derive, as such, from their situatedness in people’s lives, rather than any operational scale; it is when they muddle the two that they fail.

10

The very existence of data is evidence of this situated relationship, and the holding of it is, as such, custodial: a relation of obligation, neither alienable nor fungible in any conventional sense. A datum is, literally, a “thing given”; and an office, an entity that holds information, a “service owed.”

11

Because AI models cannot advance without this data, frontier labs are embedding themselves inside these institutions under the guise of philanthropy or subsidised partnerships. Simultaneously, they are buying millions of books, out-of-print and rare, severing them from their bindings, scanning and pulping the remains, while expending billions to hire doctoral students to construct demonstrations and evaluate model outputs. This becomes a clerical industry of an almost colonial kind, with the material then sent to labellers in Kenya and elsewhere to tag and rank it for the models.

12

These landgrabs, if it is unclear, have been entirely sanctioned by the university apparatus, and the quasi-public administrators of primary education, healthcare: i; ii; iii; iv; v; vi; vii; viii; ix; x; ad continuum.

13

The playbook is clear: embed within organisations, and siphon the unwritten rules of their field into proprietary models, literalising Frederick Taylor’s Principles of Scientific Management (1911): “the burden of gathering together all of the traditional knowledge which in the past has been possessed by the workmen and then of classifying, tabulating, and reducing this knowledge to rules, laws, and formulae.”

14

This engineering agenda assumes that knowledge is simply data at scale (9). Since models can generate and refactor code for free, software companies are no longer valued on their code but on their "context window," their lock-in over proprietary, domain-specific data and their ability to compute over it.

15

Typically, by way of these licensing agreements, frontier AI developers also acquire a residual option over context’s use in future computation: the right to invent uses not specified, to combine it with records not yet created, and to generate reconstituted outputs.

16

Even where data is appropriated without permission, frontier labs argue that model training is “quintessentially transformative” and so fair use, as a US federal court held in Bartz v. Anthropic.

17

For anything, anyone, to learn and develop its own capacities, it must appropriate something; we cannot, nor should we, restitute knowledge. But the appropriated material was already heavily worked by institutions over generations (8–10). The question is what claim its further transformation confers.

18

The justification for privatising the resulting capability is recognisably Lockean: a person who has “mixed his labour with” a common resource acquires a claim that “excludes the common right of other men.”

19

The difficulty arises when the raw material already belongs to someone else. Roman law framed this under specificatio: who owns a nova species—a fundamentally new object fashioned from another’s property? The twentieth century secularized that doctrine into an artistic creed, making appropriation synonymous with creation: T.S. Eliot insisted that the mature poet steals; Pound constructed the “Malatesta Cantos” out of verbatim archival letters; and Picasso was retroactively crowned with the maxim that “great artists steal.”

20

Appropriation, for Locke, was, indeed, what made a person a "person," a "forensic term, appropriating actions and their merit; and so belongs only to intelligent agents, capable of a law", he wrote in 1694; to appropriate something, to transform it, is what incarnates intelligence and bestows legal responsibility for it; to be intelligent, and to act voluntarily, is to be culpable for action.

21

The irony is that the technology industry personifies “artificial intelligence” to the opposite end, in order to suggest it has its own agency and cannot be responsible for its output.

22

The burden of knowledge, after all, is our oldest fixation, but the legal question needs to be approached by recognising that intent need not be embodied in a single mind, which the formulation of the corporation (20) already proves, and, by the same gesture, by expanding the custodial obligations of intent, whether of a recognisable shape or not, to the network that bestows it.

23

Across this sits the question of what rights attach to data, not as an isolated thing but as the record of a relational intelligence (10), and how the claims of those represented in it are to be preserved when it is combined, transformed and put to new uses.

24

All data is intellectual property, and all intellectual property is data. Artificial intelligence is principally a question of who may appropriate it, and on what basis.

NextI (b). Liability

I (b). Liability

The displacement of risk is not just a legal abstraction; it is the root dysfunction of modern institutions. Silicon Valley points to this civic decay as justification for its takeover, ignoring that its own information regime caused it. Overwhelmed by the liabilities of warehousing data, civic bodies abdicated their computation to the tech sector—liquidating the human judgment and democratic accountability that a functional service economy requires. Against this paralysis, the industry’s offer of “sovereign AI” is a false corrective, mistaking the procurement of a new corporate vendor for civic sovereignty.

25

Silicon Valley declared such institutions (8) obsolete: the “Paper Belt,” in Balaji Srinivasan’s geography; “our enemy,” in Marc Andreessen’s, “compromised and corroded and collapsing.”

26

Their indictment is partially correct; but their demise is also a product of the information economy described in (1–5).

27

As much a product of the era as motivated by the mantra that “data is the new oil,” institutions have accumulated information far faster than they have developed the capacity to organise and secure its use.

28

This paralysis, more than purely technical, was one of liability: linking records across systems creates fields of correlated harm, where information can be misused beyond the purpose for which it had been given (10), as well as the raw data security threat.

29

Anyone who has worked at, or visited, a modern hospital or government office (or even dealt with any customer service agent) has experienced the kind of systemic dysfunction that emerges: no single employee is permitted to see the entirety of a system; decisions arrive from software and contractual arrangements that no individual controls; and even when frontline workers recognise an error, they often lack any authority or technical means to correct it; records everywhere, understanding nowhere. We come to rely on it through a particular faith in machines.

30

This is, of course, partly by design: the point of an institution is to make a service functional by reducing the liability of its practitioners. But, oddly, this liability of holding data resolves into a situation in which nobody is liable at all, and institutions still reject “socially useful computation” because the risk exceeds its benefits.

31

And so, circuitously, the ‘responsible’ manoeuvre is to outsource computation—and its liability—to cloud providers and software developers, a.k.a “third-party providers.”

32

While often treated as unavoidable, it divorces technical control of these domain-specific information systems (8) from institutional responsibility—a dynamic that produced some of the worst abuses of recent times: the British Post Office Horizon scandal; Robodebt, Australia’s automated welfare-debt scheme; and the Dutch childcare-benefits affair, amongst many others.

33

In each such case, conclusions reached through computation acquire an authority that institutions defer to and victims struggle to contest. In England and Wales, the law reinforced this authority: the 1999 repeal of section 69 of the Police and Criminal Evidence Act 1984 took effect in 2000, the harbinger of the new Millennium, instructing courts to presume that computers were operating correctly unless there was evidence to the contrary.

34

In other words, "computer says no"—yet the finality of the record is an ancient instrument of rule: the Domesday Book of 1086 was so named, as the royal treasurer explained, because its determinations were treated as final, like the Last Judgement. The struggle over a factor of production is also a struggle over the authority of its records.

35

The supply of “intelligence” pushes this severance of capability from liability to its logical conclusion: what institutions outsource is not merely the processing of records, but the situated judgement through which they decide how to act, forcing them to absorb the systemic risk of decisions they no longer technically control.

36

The institution then contorts its operations to fit whatever machine-readable formats the platform demands; whatever cannot be represented within those formats (14) is excluded from its model, deepening the dependencies established by SaaS (3).

37

The erosion of institutional capacity often masquerades as progress. Drawing on Amartya Sen’s distinction between mere culmination outcomes (isolated end-states) and comprehensive outcomes (which encompass the agency and process of deciding), markets optimized for immediate answers systematically neglect the underlying capacity to produce them—delivering better outputs while gutting the institution’s ability to question, test, or inherit them.

38

Where institutions come to rely on the same models and success metrics, this tends toward what many have called a "monoculture": an optimisation regime that maximises a single visible yield while depleting the soil that produced it.

39

“Slop” is its aesthetic form, but, at root, it is epistemic: a gradual inability of institutions, and eventually people and societies, to perceive the world other than through fixed models.

40

As industrialisation separated the artisan from the tools of production and dissolved savoir-faire, the craft of making, so this separates people and institutions from the means of judgement, and dissolves what might be called, after the late Bernard Stiegler, savoir-penser: the practised knowledge of how to think and care. Or what Marx earlier called the “general intellect”: the accumulated knowledge and skill of the “social brain,” absorbed into capital and appearing as an attribute of fixed capital.

41

Even Palantir’s Alex Karp now accuses the frontier labs of intending “to capture the means of production of their purported partners”; all while his own business invokes the sovereignty of the state to defend a private operating system on which it hopes the state itself becomes dependent.

42

The industry’s proposed remedy to this dual crisis of appropriation and liability is what Jensen Huang terms “sovereign AI.” It is sold on a compelling promise: that by controlling its own model and its weights, a state or institution can finally “own” its data, securing its intellectual property within an isolated, trusted execution environment (typically on Nvidia’s infrastructure). It presents the Hobbesian sovereign—uncontrollable by external forces, all-powerful internally—as the ultimate technical fix for data liability.

43

For a firm concerned primarily with the leakage of its own proprietary knowledge, this is an improvement, but it fails civil society on two fronts.

44

First, "Sovereign AI," as they formulate it, can secure a computation within one institution, which is to say it makes the hoarding of data and intellectual property secure, but it says nothing about the relations between institutions, or between any entities: how may one hospital learn from another without pooling patient records? Medicine, education and administration are not private learning loops; nor, for that matter, is any human: the nature of skill is fundamentally social.

45

Second, it only compounds the dependency on Nvidia (123–124) and makes "sovereignty" a colossal capital expense—evidenced by the more than $30 billion in revenue Nvidia received from it in the year to January 2026.

46

The conclusion to be drawn is that "sovereignty," in any meaningful sense of the word, cannot be supplied as a service (3), SaaS. Machiavelli said of such "auxiliary arms" that they are "useless and dangerous": "losing, one is undone, and winning, one is their captive."

47

More so, if these "sovereign" models still converge on the same planetary data stack yet operate under differently defined criteria, there is reason to believe, following the logic of Silicon Valley's favourite philosopher, René Girard, they will ultimately consolidate or go to war. Call it "sovereignty slop": a general crisis in the production of subjectivity.

48

The libertarian promise thus tends toward its own inversion: a private Gosplan controlling the communications, identity, payments, defense, and cloud infrastructure of American life—and much of the emerging world.

49

Beyond the hypocrisy of individual corporate actors, this architecture produces a structural contradiction: an economy with simultaneously too much data and too little. Civic institutions sit paralyzed by vast stores of contextual knowledge that liability prevents them from deploying, while frontier models demand orders of magnitude more data than the open web can provide—incentivizing platforms to strip-mine public archives while disclaiming the legal risks.

50

This crisis will only intensify with world models. As sensors and autonomous agents operate directly in the physical environment, collecting “egocentric” data, every dimension of human life is rendered machine-readable, and every institution is reshaped around it: Taylorism, everywhere.

51

Much like "sovereignty," "privacy," the right not to be interpellated by these systems, does not by itself establish the conditions under which information, and technology, expand people’s capacity for collective action and thought, or under which knowledge can be used for shared purposes.

52

What, then, would it mean to change the architecture itself (1–5)—to build, in effect, a “Palantir for civil society”—“synthesizing and querying vast, fragmented, and siloed sources of real-world information”—that genuinely belongs to it?

NextII. A separation of powers for computation

II. A separation of powers for computation

Google built a private architecture over public information; we propose a public architecture for private information. The nascent field of programmable cryptography technically enables this by separating who holds data from who computes over it. Because it allows algorithms to process encrypted information without revealing the underlying records, institutions can utilise sensitive data at scale without absorbing the risk of a breach, also unlocking the economic and social utility of data that liability prevents being used.

53

Changing the architecture begins with its organising principle (1). Any political economy of information concerns four functions: how data is held, how it is shared, how it is validated, and who is permitted to compute over it. In the current architecture, all four are consolidated under a single corporate sovereign; they operate as digital fiefdoms (3–4).

54

To unbundle these functions is to establish a separation of powers for computation: a structural division that prevents the entity executing the algorithm from capturing the underlying information over which it operates.

55

Property law solved an analogous problem centuries ago by allowing an owner to grant a right of way without conveying the freehold: you can cross a field, without acquiring it. Information lacks an equivalent instrument; to make use of data, we have to hand the thing over forever.

56

The technical opening for this social right, what property law would call an easement, comes through the emerging field of programmable cryptography.

57

Cryptography has been bound up with computing since Tommy Flowers built Colossus for the Bletchley Park codebreakers. For most of the time since, it was used to protect messages and databases, deciding who could read them; over the last fifteen years, however, a series of developments has let it act on computation itself, determining not simply who can see information, but what may be done with it.

58

Zero-knowledge proofs can establish that a computation was performed correctly without revealing everything on which it operated; multiparty computation can divide a computation among parties that do not disclose their inputs to one another yet can share the output; fully homomorphic encryption can allow computation directly over encrypted information; proof-carrying data attaches to each result a short proof that it was computed as specified; and, further down the line, certified deletion lets a user verifiably prove that something has been deleted.

59

Taken together, these advances mean developers no longer need to build a new privacy system for each specific task: they can specify an ordinary program together with the guarantees it must satisfy, and use cryptographic compilers to translate that program into the necessary combination of proofs, encryption and secure computation.

60

This means, in principle, privacy no longer has to mean refusing computation, and an institution, or person, no longer has to give an entity its data in order to make use of it (54). Holding the data and computing over it become separate powers, and the result can carry a proof that it was computed as agreed.

61

What this does, more than maintain privacy, is let far more computation happen, because it reduces the liability of performing it (28–31): an institution can authorise a specified analysis without giving the analyst unrestricted access to its records. A hospital network can find patterns across its patient populations without a central database; a school system can draw on external computation without handing the developmental history of every pupil to the operator; a studio can let an external model learn from its visual-effects library without exposing the material, the exchange conducted by agents that produce a proof that only the agreed learning occurred.

62

The phenomenon here is the emergence of multiple kinds of computation—that is, of “transformation” (17–18)—which can be priced according to what they are permitted to do; and, with cryptographic verification, independently operated systems can combine their contributions without every participant having to repeat the computation.

63

If these new relations of computation are to become repeatable transactions, such permissions must themselves acquire a standard economic form, something akin to a "computational warrant": a user-governed, machine-enforceable right to invoke a specified computation over committed information, producing a defined output and a settlement obligation; the instrument that information has lacked.

64

In notation: Custodian C authorises qualified user U to perform function F over records satisfying D, under conditions P, releasing output O, during term T, in return for payment R.

65

The warrant changes the basic economic transaction from “you may have access to my data” to “you may use my data to do this particular thing that we have agreed,” with any variance traceable.

66

The custodians, the hospitals, universities, libraries and studios, no longer give over their archives to a platform; instead, they declare their supportable operations, define legitimate applications and uses of their data, according to varying levels of privacy-preserving computation. Functioning much like an option, the item being sold represents a right to execute that specific computation at a certain price.

67

Capitalism’s most transformative breakthroughs have consistently taken the form of mechanisms designed to mitigate, distribute and manage risk: from Genoa’s marine insurance contracts in the 1340s, to reinsurance emerging in Cologne after Hamburg’s great fire of 1842, to the limited-liability corporation in 1855, and eventually the institutionalisation of the credit score. An asset becomes economically tractable only after a society invents a form in which its risks can be expressed; the warrant is such a means of shifting the risk curve of computation.

68

Each of these instruments also required a way of finding and describing what it covered.

69

A functioning market, as such, has four core pillars: discovery and classification (locating necessary assets), validation (verifying authenticity), valuation (determining fair pricing), and settlement (executing the transaction).

70

Data resists these because it is non-rival, highly complementary, and creates a double bind: a buyer cannot discover useful information unless the seller reveals it, thereby losing control over its subsequent use.

71

Our proposal is that discovery utilise a general-purpose cryptographic format—for example, 0xPARC’s PODs—which allows institutions to prove, in a common language of zero-knowledge proofs, that they hold specific data without exposing the underlying files.

72

Because every institution’s claims are written in this lingua franca, a buyer can search across disparate silos to locate exact parameters without ever seeing the raw records. The double bind of information markets—where revealing data to prove its value destroys its exclusivity—is neutralised at the point of discovery.

73

This fundamentally inverts the mechanics of data acquisition. Datasets become dynamically composable: rather than acquiring a static database, an algorithmic query simultaneously sources, bids for, and assembles proofs from multiple independent custodians. A health authority could ask, in real time, where respiratory infections are rising and which hospitals have the staff and beds to respond, without ever pooling the underlying registries.

74

Today, information is acquired in arbitrary, static bundles; buyers are forced to purchase massive, risk-laden datasets as crude proxies for the specific signals they actually need. A computational warrant instead re-bundles information precisely at the time of inference, dictated by the exact purpose of the query. The imperative to hoard giant, permanent datasets collapses, rendering ad hoc licensing and sweeping data-sale agreements redundant.

75

It is a model of knots, not chains: data can be tied together, for a purpose, and then untied.

76

Governance of how these PODs are constructed, and of what they may say about the records of a given domain, would default to the bodies that already set its standards: medical federations, professional associations, guilds. Each would write the syntax for its field and decide which computations across it are legitimate.

77

Domain languages would let standards be kept open, with validation itself becoming a market, reputations certifying meaning to the end user, as London’s goldsmiths have assayed metal since 1300. Others could write their own; but buyers who need data of verified quality will likely converge on the standards of the bodies that determine what the data means.

78

These might be packaged into “market modules”: repeatable classes of computation, with standardised validation mechanisms and pricing, for certain domain functions.

79

This would reverse the current system where private platforms, rather than the original institutions, secretly decide what counts as valid knowledge; evidence also shows that giving platforms this authority degrades information quality.

80

An orchestrator would turn the warrant into an executable workflow, running locally, across enclaves, whether by fully homomorphic encryption, or conventionally. It returns a cryptographic receipt detailing who authorised it, what result was released, and what was paid, creating an economic record.

81

This lets valuation occur in two stages: first, ex-ante testing determines the marginal value of information for a specific query; second, accumulated receipts form a “performance graph,” a shared market memory that prices private information on its historical utility and complementary value. Information is allowed to be both free and expensive (2).

82

The structural risk is that, long term, whoever monopolises the performance graph will control the market without owning any of the underlying records, because the graph prices every future transaction. This is the exact mechanism of Google's advertising dominance. To avoid recreating AdSense, or a Bloomberg terminal, for private data, the settlement layer and the graph must operate as common infrastructure. The banking equivalent is SWIFT and the clearing houses (DTCC, CLS) of the postwar global financial system, serving as shared utilities that no single bank owns outright. To achieve this, we need a publicly owned common index of the market's metadata, or, indeed, the internet. A schema for this is forthcoming.

83

The knowledge industry currently has no equivalent. Achieving this, and liberating data from the liability of its custody, is the architecture that lays a foundation for an entirely new data economy; delivering Palantir’s promise of “integrating vast, siloed sources of data,” but within a civic and far more extensive system.

84

What emerges, in lieu of traditional data brokerage, is a mutual-credit economy of computation for both individuals and, most critically, collectively held knowledge.

85

By severing the link between data custody and computation, this architecture dismantles the extraction model of the modern tech economy. It achieves Palantir’s holy grail—integrating vast, siloed intelligence—but does so through a civic utility rather than a corporate panopticon. Public knowledge transforms from a vulnerability into a sovereign asset. Ultimately, dormant institutional knowledge becomes a mutual-credit engine, generating the capital required to digitize records, build independent infrastructure, and train open-source models on public terms.

NextIII. The public university

III. The public university

The market proposed in Part II relies on a strict separation of powers: institutions keep full custody of their data, while cryptographic “warrants” control and verify exactly how outside systems can compute it. The public university is the natural engine for this model. It already anchors the four pillars these warrants would govern—schools, hospitals, libraries, and patents. Rather than serving as a proprietary R&D lab for tech monopolies, the university must be rebuilt to govern the legitimate use of this data, returning to its core purpose: ensuring intelligence remains a public good.

86

Establishing public intelligence paradoxically requires keeping vast amounts of information strictly private. Yet privacy conceived around the “sovereign individual” cannot account for knowledge that is fundamentally relational—generated and sustained within collective bodies. When AI is consumed merely as an individualized service, it leaves no institutional legacy: each user receives a private answer, but what is learned never accumulates in a form that society can examine, inherit, or build upon.

87

John Dewey recognized this a century ago when he defined knowledge as “organized intelligence,” dependent entirely on “association and communication.” Foreseeing the threat of “concentrated and organized property interests,” he called for “freed intelligence as a social force”.

88

Historically, the institution built to preserve and reproduce “organized intelligence” is the university, which in America is predominantly public: public institutions teach three-quarters of undergraduates. While often sclerotic, it remains the practical hinge of the reproduction of knowledge across civil society.

89

Its reach extends into elementary and secondary education: nine in ten teacher-preparation programmes are based in higher education, and university schools of education develop the core classroom pedagogies, even as commercial publishers have long dominated the K–12 textbook market (51).

90

In medicine, major teaching hospitals are just one in twenty American hospitals, yet they operate over half of the highest-level trauma centres and house every comprehensive cancer centre in the country. More broadly, “eds and meds” are not merely employers of eighteen million people—nine per cent of the national workforce—they are the foundational infrastructure of civil society and the physical base of the knowledge economy.

91

Crucially, these institutions already demonstrate how this economy can be governed as a shared civic resource. University libraries run the closest thing the knowledge industry has to a public utility: since 1967, they have governed OCLC to index their collective holdings, alongside HathiTrust, which manages their digitised collections without corporate enclosure.

92

Entrusting these institutions with the computational architecture of the twenty-first century is not a radical departure; it is the fulfillment of an original American mandate. Public higher education was always conceived as the republic’s intellectual anchor—a vision so central that George Washington asked Congress for a national university in his addresses of 1790 and 1796, and left shares in the Potomac Company in his will to endow it.

93

This mandate—as fiercely contested then as public healthcare is today—persisted until the Morrill Act of 1862 granted public land to create the land-grant colleges, “to promote the liberal and practical education of the industrial classes.”

94

In recent decades the public system has lost much of its state funding, affecting these broader functions, and its costs have moved to students: their share of public college revenue rose from 21 per cent in 1980 to 38 per cent today, and student debt stands at $1.7 trillion.

95

The private system, meanwhile, perpetuates a class rift that has divided America since at least the Vietnam War and runs through the opiate crisis today: children from the top one per cent are 77 times more likely to attend an Ivy-plus college than those from the bottom fifth.

96

While the public system has been starved of state funding, the elite private system has become the direct mechanism for consolidating global technological power. As Waterloo was won on the playing fields of Eton, our present technological order was forged in the sandstone quads of Stanford; within an hour’s drive of its campus sit the three most valuable corporations on Earth. Elite academia functions as their proprietary research apparatus—the primary mechanism through which the Valley’s research is seeded, its talent recruited, and its capital allocated. It is highly successful, but it is a closed epistemic community, built on artificial scarcity—teaching one class how to rule the world, and manufacturing that class under a thin veil of meritocracy.

97

That private system is now moving into public functions (11–13). Frontier laboratories have signed agreements with public universities, school districts, and national health services, and Google counts 170 million students and teachers in its classroom software.

98

Primary education is the absolute frontier of generative AI—the first true market for generative content—and these systems enter while children’s habits of learning and judgement are still forming. Because early learning produces context about a person that no later stage can, capturing children ensures lifelong lock-in to proprietary products: know them as a kid, know them for life.

99

What would it mean to renew the mandate of the public university, as the opposite of the Stanford system, transforming its broader civic functions (88–90)?

100

Cryptography must secure a data sanctuary for K–12 learning, so that a student’s cognitive and neurological development is not beholden to a private platform (97). At this moment, this should be the most pressing task of government.

101

The public university system would set the standards for cryptographic “data sanctuaries” and, through programmable cryptography (55–58), provide the means by which personal and institutional information could be secured and shared across civic services while its custodians retained authority over its permitted uses.

102

The same design would extend to civil records generally, from voter rolls to benefits and health records, with independent custody and preservation arrangements designed to resist unauthorised extraction, alteration and deletion, including misuse by the state.

103

This is the beginning of doing politics through cryptography: turning privacy statutes like FERPA and HIPAA from passive compliance frameworks into active embargoes against data extraction. Since no record must leave custody to be used, the code itself enforces the “separation of computational powers” set out in Part II.

104

Importantly, this does not preclude data being acquired and used by proprietary frontier models: they could train and run on these records under warrants that state what may be computed and what may be released.

105

Frontier laboratories will have no choice but to accept this framework. As models degrade from recursively training on generated outputs, verified human knowledge becomes indispensable. Universities already anchor this authority—certifying meaning through peer review, professional examination, and domain standards. By organizing standard-setting bodies to define legitimate computations, public institutions can stop surrendering their work and instead exercise their ultimate custodial leverage: the power to withhold both their data and their validation.

106

The university library and its computational infrastructure would run this model: they would manage the cryptographic keys and issue the warrants on its knowledge base. Libraries already maintain networks and protocols for cataloguing, preserving and sharing verified knowledge under differentiated rights of use.

107

Every university’s library should be its public model: not only the language models trained on its corpus, but the custodian of computational access to its research. Under warrant, a model could learn specified things from a collection without acquiring it, and each computation would return a receipt of what was done.

108

Academic publishing is the original model of data extraction: the public funds the research, universities pay the salaries, and scholars donate free peer review—only for commercial publishers to paywall the results and sell them back to institutions at a 40% profit margin. Universities actively perpetuate this enclosure through their technology transfer offices.

109

Through their technology transfer offices, universities dictate whether this knowledge remains public or becomes a private monopoly. Stanford’s exclusive licence of PageRank in 1998 enabled the Google monopoly, for which the university sold its shares for $336 million. By contrast, its non-exclusive licensing of the Cohen–Boyer patents at modest fees to 468 companies seeded the biotechnology industry, earning Stanford and the University of California $255 million while keeping the ecosystem open.

110

P4PI would renew the bargain on both sides: public patent pools to make institutions' inventions available on shared, non-exclusive terms, for research and for building public infrastructure, including the equipment and technologies computation requires; and the university’s publications and collections on the same terms, under warrant (115).

111

This structure can be understood in the older sense of universitas: a self-governing association, antecedent to the corporation, formed around a common capacity—a locus of interconnected knowledge (universities, hospitals, libraries, and schools) joined to the physical infrastructure through which that knowledge becomes computable. Wedded to the public primary education apparatus, it creates federations for primary education capable of breaking the stranglehold of monopolies like McGraw Hill.

112

What P4PI proposes, then, is not a single “superintelligence,” nor one library of everything, but the means by which human knowledge is catalogued and permissioned this century, so that it can continue to be produced, contested, and renewed.

113

A public exists where people share instruments for establishing what is true. As Dewey put it, “Whatever obstructs and restricts publicity, limits and distorts public opinion and checks and distorts thinking on social affairs.” Securing this requires full openness of the infrastructure, so that it is accountable, and strong cryptography to protect the local data that passes through it.

114

This framework will not come from the voluntary enlightenment of frontier laboratories, nor from compromised university administrators accustomed to reorganising their institutions around new sources of private capital.

115

It requires organised refusal: unions, in effect, for the mind.

116

The political force must come from student bodies, as it has on other questions, from Dhaka and Kathmandu to Nairobi and Mexico City, and now France.

117

The first act is for a public university to refuse its records for training; so far as is known, none has yet done so (12). Forcing universities to use this custodial leverage (10) against the AI labs would be the material beginning of a movement for public intelligence.

NextIV. Open silicon

IV. Open silicon

The critical bottleneck of public intelligence is that it requires new chips that are currently impossible to develop without access to the proprietary corporate hardware of one company, Nvidia. To break this monopoly, the public research apparatus must leverage federal march-in rights and patent pools to mandate “open silicon,” ensuring chip designs remain publicly readable and modifiable. Not by coincidence, amongst the only training data that is lacking is that for the design of new kinds of chips, for new kinds of computation. Extending open-source principles to the physical means of computation is now as essential to a functioning democracy as clean water or air.

118

The artificial intelligence we have come to know, the LLM, is one of many possible approaches to synthetic intelligence, and it won for reasons of hardware. It developed on processors first designed for graphics.

119

LLMs scaled on that available computing power and outcompeted every alternative in part because the alternatives had no comparable hardware. The lesson is that whatever kinds of intelligence are developed will be because of the economic viability and availability of silicon.

120

It follows that a society has to develop chips in view of the kinds of computation (64) it wants to make possible; pursuing alternative modes of computational thought depends partly on being able to alter that silicon, or fork its development.

121

This is the hypocrisy of Nvidia, Meta, Microsoft, Mistral and Palantir appealing to Washington on the virtues of “open-weight models.” They advocate openness where conceding it costs them nothing.

122

If the argument were truly for user sovereignty, Nvidia would open-source CUDA. It has not and will not of its own accord, because CUDA is what makes every alternative to its hardware prohibitively expensive to build.

123

Even if the software is publicly accessible, so long as the machines required to run it belong to a single company, the chokepoint simply moves down a layer and has not gone away.

124

Real computing sovereignty requires “open silicon,” which depends on “inspectable designs, licences permitting modification, accessible toolchains, and credible routes to fabrication.” Chip designs are fiercely guarded, commercial toolchains are cornered by a triopoly, and critical technical documentation is withheld. In turn, to further bitter irony, this material chokehold has allowed incumbents to cripple AI-assisted hardware design: by withholding technical documentation, they starve open models of the exact training data needed to generate alternative architectures—turning the knowledge of how to build physical infrastructure into a self-perpetuating monopoly.

125

This matters directly to the infrastructure proposed here. Computing on encrypted data, particularly through fully homomorphic encryption, can impose substantial overheads on conventional processors; specialised accelerators can reduce them. For public institutions to inspect, modify and commission the manufacture of those accelerators themselves, they need access to the designs and the rights to reuse them. Otherwise, the means of computing privately remain another proprietary dependency.

126

This runs against the emerging tendency of the defence industry: Palmer Luckey of Anduril argues for extending the Invention Secrecy Act of 1951, to artificial intelligence: a patent, in his words, “on something that you are not allowed to disclose to anyone, but you still maintain the exclusivity on those rights.”

127

This returns us to the university’s power over intellectual property (110). Under the 1980 Bayh–Dole Act, the government retains a non-exclusive, paid-up licence for government use of covered federally funded inventions, alongside conditional march-in rights to require additional licensing; the latter has never been exercised. Universities can also act through the rights they already control, as Harvard, MIT and Stanford did in 2020 when they committed to temporary, non-exclusive, royalty-free licensing.

128

P4PI would create public patent pools where universities share their hardware designs and tools on open terms. Firms could still compete on manufacturing, but the foundational architecture would be available to everyone, eliminating the gridlock of private IP monopolies.

129

The closest precedent in computing is what was the foundation of Silicon Valley itself: the 1956 AT&T consent decree, which required the royalty-free licensing of Bell’s patent portfolio, some 7,820 patents, including that of the transistor.

130

Open designs are consistent with Kerckhoffs's 1883 principle that security should not depend on keeping the system's design secret.

Again, as Dewey put it: “There can be no public without full publicity in respect to all consequences which concern it.”

NextV. Cooperative infrastructure and affordability

V. Cooperative infrastructure and affordability

“Disruption” has now hit the world of atoms, and AI development has run into hard limits in energy and silicon capital. The political right’s response is to protect domestic incumbents and call it sovereignty, at the expense of affordability; the left, meanwhile, blocks new construction: either way this only consolidates private monopoly (124–125) and presents it as being in the public interest. Public intelligence must build capacity and share its returns by bringing data centres, fibre networks and energy grids under the democratic control of cooperatives, as the Rural Electrification Act of 1936 did for electricity.

131

The United States built its computing dominance in part through open standards and diffusion. Yet frontier laboratories, facing competition from cheaper, open models from China, increasingly present their commercial lead as a matter of national security, invoking the sovereignty of the state (41) to secure their chips, energy and markets.

132

Once national success is defined as “beating China,” preserving the position of these firms becomes an end in itself: private monopoly (123–124) presented as the public interest.

133

National-security restrictions themselves become negotiable: in August 2025, Trump described his bargain with Nvidia as permission to sell H20 chips in China in exchange for fifteen per cent of the revenue.

134

Replacing the Californian Ideology, this is the Sovereign Ideology that Silicon Valley has presented. It sells private monopoly as national strength (42–47), building the exact unaccountable authority it purports to contest in China. By proposing a “sovereign wealth fund” to hold equity in this infrastructure, it structurally weds the stockholding American middle class to the monopoly, holding their pensions hostage to the liquidation of public knowledge. The Right’s culture war, and its exploitation of a fractured society (95), has thus been a logical necessity: “The universities are the enemy,” J.D. Vance declared in 2021, and conservatives “have to honestly and aggressively attack” them.

135

The promise of bringing gods to Earth, after all, is how “sovereignty,” as a perverse means of expropriation, has always been maintained.

136

Defending protectionism, Treasury Secretary Scott Bessent claims that “access to cheap goods is not the essence of the American Dream.” Is that true?

137

In the American translation of the French maxim, liberté became consumer choice, égalité meant access to affordable goods, and fraternité was membership in a shared material world.

138

The American dream, and the legitimacy of American dominance, have long rested on technology becoming ordinary—from the Model T to the household appliances of the 1950s, to the iPhone, manufactured at scale in China, and the cheap applications language models promise today.

139

America risks its own Concorde moment: engineering an exceptional achievement whose economics trap it in a niche market. Only 14 Concordes ever flew commercially, while the Boeing 747—which debuted weeks earlier at half the speed—became the backbone of global aviation. Even Boeing expected supersonic flight to win out, but the 747's cheap capacity allowed adjacent industries like mass tourism to scale. Ultimately, the slower machine succeeded where the exceptional one failed because it did the most important thing: it made the technology ordinary.

140

The test of national technology policy is, as such, what it makes affordable: what it does to the price of tokens, tuition, rent and watts.

141

If Silicon Valley has abandoned the use of technology to lower the cost of living, there is a passing window to establish a cheap, publicly governed production of intelligence, as a democratic alternative.

142

Data centres and their substations are already driving unprecedented grid deficits: for PJM, the largest US grid operator, they have driven a ninefold rise in capacity prices, and there is a reason they, and high energy prices, are now the principal proxy for inequality.

143

The lesson here is that there can no longer be significant commercialisation of technology without urbanism; that means technology infrastructure planned and managed at the municipal level, the level of government Americans trust most.

144

Moratoria will not work, and neither will the tech industry’s techno-sovereign fantasies of seasteading, “network states” or privatised charter cities. (These are, again, sovereignty slop (47), from a frighteningly dim political imagination.)

145

The credible models for this moment are historical. Eighty years ago in Ivrea, Italy, Adriano Olivetti built the comunità concreta; the ecosystem around Ivrea produced what is often credited as the first personal computer, in 1965, and, decades later, Arduino, the open-hardware platform named after the town's favourite bar (123).

146

The comunità concreta joined capital-intensive technological development to a human scale, through cooperatives and manufacturing towns that provided dignified housing and welfare. Its explicit aim, and achievement, was the alignment of capital-intensive infrastructure with local democratic control.

147

The closest American equivalent came in 1935. When private utilities refused to electrify rural areas, citing costs of $2,000 a mile, Roosevelt established the Rural Electrification Administration. Federal loans allowed farmers to build member-owned cooperatives that strung lines for under $825 a mile; by 1953, they had electrified nine in ten farms.

148

As of September 2026, the cooperatives of the National Rural Electric Cooperative Association serve 42 million people, across 56 per cent of the country’s land and 92 per cent of its persistent-poverty counties; they plan $88 billion in capital expenditure.

149

This existing cooperative framework can directly scale U.S. data center infrastructure: compute facilities would be sited at and owned by cooperative substations, funded through federal loans on standard distribution and broadband terms (2%), and secured by pre-construction purchasing commitments from public institutions (universities, hospitals, and agencies).

150

Cooperatives would sell compute capacity to members at cost and use any surplus as patronage to service the loan; once sufficient facilities are operational, loans would be pooled into bonds through the cooperative lender to refinance out the initial public credit.

151

This model delivers significant unit economic advantages: at 85% utilization, the cost to members would be, ~$1.90 per GPU-hour (or $3.20 at 50%), against the October 2026 open-market price of ~$7.45. The purchasing commitment would be issued as a capacity token: a transferable claim to a fixed block of compute, settled each month against the equipment’s hardware attestation and metered delivery.

152

Fibre, storage, and energy controls must likewise be treated as utility-like infrastructure: owned through cooperatives, municipal utilities or community trusts, and federated where greater scale is needed. This is the fastest way to address America’s energy deficit—its real competition with China—and which the private sector has failed to address. Public utility finance is also the safest form of capital allocation, far safer than venture speculation.

153

The same institutions would govern the sensing systems used to operate this infrastructure. The data architecture of Part II would support purpose-limited sensing of grid loads, water systems, building performance and environmental conditions, designed to make common systems legible while minimising the collection and retention of information. Flock’s private camera network, and the backlash against it, already mark the line between community self-surveillance and community intelligence.

154

This architecture forms a self-reinforcing loop: open silicon lowers capital costs; encrypted sensing optimises physical resources and makes data collection tenable; cooperative data-centre ownership (148–153) reduces consumer prices and tethers the revenue to local politics, which finances the next round, for a radical diffusion of public goods.

155

The aim is that public intelligence be as much a programme of political devolution as of computation: a new consensus between rural and urban civic life (94, 148–149) arising from infrastructure development itself.

156

The greatest inhibitor of devolution and the effectiveness of local government has unsurprisingly been cybersecurity and information management (27–28): a “Palantir for civil society” (51) requires an open toolset for local government.

157

And so, this returns the university to the argument once more: Wendell Berry argued in the 1970s that if the land-grant universities stopped serving the rural communities around them, those communities would not survive it; the loss of the public university (93–95) has been the loss of rural America. The Cooperative Extension System, established in 1914, already connects land-grant universities with local communities through a federal, state and county structure, with offices in or near almost all of the country's 3,000 counties; its reinvention would form the bridge between technology transfer and local communities.

P4PI's task is therefore an alliance between student movements and rural America, the two constituencies ripped off by the present arrangement and who would benefit most from democratic control of infrastructure.

NextConclusion: Opacity, sovereignty and personhood

Conclusion: Opacity, sovereignty and personhood

Intelligence has always relied on social infrastructure, the physical and institutional structures that let individuals cultivate and express their agency. A subsequent piece will outline the practical policy dimensions of the Plan for Public Intelligence. What remains here is the ethical imperative underneath it, our responsibility towards intelligence itself.

158

The defining logic of this new era was inadvertently drafted at a Pentagon podium in 2002: known knowns, known unknowns and unknown unknowns. This doctrine committed our information systems to infinite optionality and “pre-emption”: information should be relentlessly collected and hoarded long before anyone knows what will matter (1).

159

By marrying this ideological belief in data to the unquestioned authority of the machine record (34), the state laid the groundwork for its own systemic abuses (32). Surveillance and the data economy were never two developments that just happened to become entangled.

160

While platforms collected everything, the doctrine went that the State also had an expanded capacity to withhold anything; against this, Assange, Snowden and the open-source movement were vociferous that public access to information was a political end in its own right; indeed, their acolytes called this “public intelligence”—but this fails to adequately address the social infrastructure of knowledge in a broader politics; again, a public exists where people share instruments for establishing what is true.

161

The cypherpunks had already gone further, asserting privacy as a deliberative right, “the power to selectively reveal oneself to the world,” as Eric Hughes wrote in 1993. But the libertarian cacophony left people not, in the main, caring about “privacy,” and unable to articulate what is actually at stake: who may do what with computation, which ultimately is a question of who may do what to whose data.

162

Édouard Glissant, in another context, perhaps put it better: “the right to opacity”. Applied here, it demands a structural right to participate in society without becoming fully legible to the systems that administer us (8). In Glissant’s account, relation does not require people to forgo their differences or become fully comprehensible to one another; solidarity and shared endeavour can proceed without that reduction. In computational terms, a shared purpose need not require unrestricted access to its participants' lives; nor does their right to opacity exempt public power from scrutiny.

163

The struggle of our time remains, as ever, one of—intellectual—property; its poles are, simply, no longer capital and labour but transparency and opacity, embodiment and disembodiment, as are constituted in arrangements of hardware and software—across supply chains East and West, and along which the lines of inclusion and exclusion are drawn.

164

The extent to which these politics will bend the human form cannot be fathomed; and we are fools to think, as crazy as it may sound, that the programmability of knowledge is not a precursor to the programmability of matter, both biological and computational.

165

Cryptography enters this argument not merely as a tool of secrecy (56), but as a technical means of drawing boundaries, bounding rights and subjectivity (163), that necessitates a dramatic evolution, more than simple limitation, of legal personhood (20–22). We must do politics using it.

166

Species, nova or not (19), have always been cryptographic: systems for encoding, protecting, and transmitting information.

167

It is the fetish of “sovereignty” that renders boundaries ends in themselves; the line to be drawn is to preserve the distinction between being a conscious subject of experience and being reduced to an object of technological manipulation; to protect the possibility of experience—including the transcendent and ecstatic, the out of body—without prescribing its form. Without the sublime, we would forget our dignity.

168

Knowledge belongs, in usufruct, to the living. And yet what we are now discovering is that we belong to knowledge: we, like every living thing, articulate it, and to care for it is to care for what we are.

NextBack to the beginning